SCIENTIFIC ABSTRACT KOVALEV, I. D. - KOVALEV, I. S.

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• Sequence Number: 1
• Publication Date: December 31, 1967
• Content Type: SCIENTIFIC ABSTRACT


KOVALEV WyeDenisovich; KORYAKIN, Yu.I., nauchnyy red.; NIKITINA,
T.K., red.; POPOVA, S.M., tekhn. red.
[Small-scale nuclear engineering in t4e UrAtO4 States] M&Uia
atomnais, energetika v SShA. Wdskva, Gosatomizdat, 1963. 29 p.
(MIRA 16:6)
(United States--Atomic power plants)

SINEEV, N*14. (Mosk7a)l KOVAIYV, I.D. (14askva)
Atomir eleatric pover plant TES-3. Pr1rodu 54 noo21114-117 F 165s
(N-IM 18110)

KOVALEV, I.F.
,,o*OvOWWW gov ,
I.-W, - M& ior wrapping paper around a soil sample. MeteorA gidrol.
e no.10:54 0 156. (MLRA 9.12)
(Soils--Analysis)

KOVAIV, I.- ~.
Kovalev, I. F. - "Potential Functions of Methane and Ethane. " Min Higher Education
USSR, Moscow Engineering-Physical Inst. Moscow, 1955 (Dissertation for the Degree of
Candidate in Physicomathematical Sciences)
SO: Knizhaya Ietopis', No 24, 11 June 1955, Moscow, Pages 91-104

PR1Kti0T'KD, ().F.
24(7) 3 PFAU I BOOK EXPLOITATION 3OV/1365
L'Yov. VnIversytet
"AteAsay X V3640yur.,1030 novealsehan, po Bp ktroskopii. t. I%
Molakulyarnaya apektroaVnpiya (P-74ra at she 10th All-Union
Conference on Spsctr~sccp7. Vol. I& Molecular Spectroscopy)
(L-vov)'Izd-vo L-vovakoro univ.-ta, 1 499 P. 4 OW copies
printed. aM..k, vyp
(Serlest Itsi Pizychnyy
Additional Sponsor-ing Aganc7z Akadectlya rtauk SSSR. Nomisslya po
spektroskopli. Sd.t Oster, Stj Tech. Ed.[ Sarannik, T V.;
Editorial Boards Lhn4bterg, 0 S Academician (Reap. Ll.,. Deceased),
Neporent, B.S., Doctor or Physical and Mathematical Sciences,
Yabolinskiy, I.L., Doctor of Physical and Mathematical Soleness,
ftbrikcnt~ V.A.. Doctor of Physical and Mathematical Soleness&
Korn&t%1d$, V.G., Candidate of Too.1vtioal Sciences, RV&kiy, S.X.,
Candidate of PkWaloal ani Mathematioal Science*. Klimovskil, L.K..
candidate or rhysvial arid Xstl%smatical Salencos, Miliyanebuk, V.3.,
Candidate of flvsioa and Mat-herAtical Sciences, and GlauberALn,
A. Yo., Candidate or Physical and Kathe3atioal Sciences.
Card 1/30
Pentin, Yu. A., V.M. Tatevaldy, and B.A. Pozdyahgv.
Study of Rotational Isomr1ax by Moans of
Spectroscopy 300
F- Vibrational Spectra end Potential
,XRjs�ajM_Z
C
0
orgy coal tanta of Monoallano and Its Doutero-
deriut,tv.: 304
Veyte, I.V.. and L.V. Ourvich. Energy Dissociation
and Basic Electron States of Alkali Earth Metal
OA1498 305
Takoylova, A.V., and I.I. Grozzova. Nitrogen
Fluorescence Under the Influence of Short-wave
Radiation 308
Dianov.Klokov, V.I. Absorption Spectra at Liquid
037gen 310
KorankevLoh, V.P. Lverimental Dotemination of
Coefficients or the Dispersion Foraula for
Norval Air

AUTHOR: Kovalev, I. F. 51-3-5/24
TITLE:~-~Vibra~tionailspe`cra and potential constants of monosilane
and its deuterium derivatives. (Kolebatellnye spektry i
postoyannye potentsiallnoy energii monosilana i ego
deyteroproizvodufth).
PERIODICAL: "ODtika i Spektroskopiyall (Optics and Spectroscopy),
1957, Vol.2, No-5, PP-310-316 (U.S.S.R.)
ABSTRACT: This theoretical paper presents calculations based on
experimentalvalues of the vibration spectra of SiH , SiH 2 D21
SiHD and SiD By the method of least squares M
poteAtial enetjy constants (the forse and induction
coefficients) were found for SiN Al o the first
derivatives of frequencies with a;pectsto the force
doefficients and the frequencies and forms of the noimal
vibrations of monasilane and all the deuterated monosilanes
were calculated. The silane molecule SiH is three-
dimensional and has T symmetry. The atoiic masi of Si was
taken to be 28.09 and 4he Si-H bond length 1.48 ; all
angles were taken to be tetrahedral and the isotopic
replacement was assumed not to affect the bond lengths or
Card 1/3 ansles. The experirAental data were taken from C. H. Tindal,
J. W. Straley, H. h * Nielsen (Phys. Rev., 62, 151, 1942) and
J. Hawkins Meal, M. Kent Wils6n (J. Chem.Phys.,24,385,1956)

Ke V A
51-6-2/25
AUTHOR: Kovalev I. F.
TITLN. Vibrational Spectra and Potential EneT,,-,y Constants of
Disilane and ltexadeuterodisilane. (Kolebatellnyye
spektry i postoyannyye otentsiallnoy energii disilana
i geksadeyterodisilana .
PERIODICAL: Optika i Spektroskopiya, 195?, Vol. III, Nr. 6,
Pp. 552-559. (USSR).
ABSTRACT: n
valculationsof vibrational spectra of Si A and S'2D6
are carried out. Potential energy constants (force
constants and induction coefficients) and normal vibration
forms are calculated and discussed. 11 fundamental
frequencies xeasured in Raman and infrared spectra of
Si2H6 (Refs.1,45) were used to calculate force constants
listed in Table 1. The reported Si Dr frequenries
2
.
(Ref-5) were used to check the calculation. Interpretation
of frequencies (including form of normal vibrations) is
shown in Table 2. Correctness of this interpretation
Card 113 was checked by application of the product rule (Table 3).
51-6-2/25
Vibrational Spectra and Potential Ener&7 Constants of Disilane and
Hexadeuterodisilane.
The problem was dealt with using the method of
Vollkenshteyn et al. (Ref.6) and blayants (Ref.?),
using an ethane-like model D for the disilane
molecule. The equilibrium 3d'lengths of bonds were
taken to be 23.2 and 1.48 X for Si-..,i and Si-H
respectively. It was assiimed that all angles were
tetrahedral. Tables 4 and 5 give the symmetrized
matrices of kinematic and force constants. The force
constants were calculated by repeateL approximation.
The initial values were determined by the methog of-2)
Ref.11. The force constantsof disilane (in 10 cm,
are given in a table at the top of P-556. These
constants were used to find frequencies and forms of
normal vibrations of Si2H6 and S'2D6 (Table 2). Table
6 gives the induction coefficients for %~6 and CH47
02H61 SiH4. The author then compares the results
Card 2/3 obtained for disilane with those for ethane, and interprets

Usslilphysical Chemist4 - Molecule.. Chemical Bond. B-4
Abs Jour: Referat. Zhurnal Xhizdya., No 3, 1958) 6925.
Author I.F. Kovalev.
infi4b Fffy-s-ical-Ihstitute of Academy of Sciences of USSR.
Title Computation and Interpretation of Vibration Spectra of
Metbane and Its De-aterosubstitutea.
Orig Fab: Zh. fiz. Irbirdi, 1957.. 31, vYP. 2, 362-371.
Abstract: Bibliogmphical and experimental data conear-Aing Raran spectra
and infrared absor
ption.spectra of C C
o;g&tipg,;D: C-,Pv and C2P6
served as the foundation for the c M2~' IL-rerting the
frequencies of these molecules to the concepts of symmetry
groups) the sensitivity.of these frequencies to various paxa-
meters were conputed, and the imfluence of isotope substitu-
tions on the frequencies was iwvestigited by the method of L.S.
Ma~mnts (Tr. Piz. in-ta AN SSSR, 1950, 5, 63). At the form-tion
of secular equations, the inhaarmoniousness was taken into consider-
Card 1/3 -15-

Sov/51-4-4-6/24
AUTHORS: Babushkin.7 A.A., Kovalev, I.F. and Yemel'7anova, V.14.
TITLE: Investigation of the VibraVMK Spectra of Molecular
Compounds of Boron Trifluoride with Substances Containing
Nitrogen and Oxygen. I. F 3B.Nff3 and F 3B.ND 3
(Issledovaniye kolebatellpykh spektrov riolekulyarnvkh
soyedineniy trekhftoristogo bora s azot- i kislorod-
soderzhashchimi veshchestvami. I. F 3BANH3 i F 3B.ND3
PERIODICAL: Optika i Spektroskopiya, 1958, Vol IV7 Nr 47
pp 468-473 (USSR).
ABSTRACT: Boron trifluoride was obtained by decomposition of
C6H5N2-BF3- Purity of boron trifluoride was checked spectrally
and only SiF 4 in an amount smaller than 0.501o was found.
Molecular compounds of boron trifluoride with ammonia and
deuteroammonia. were obtained by condensation of ammonia (or
deuteroammonia) on fPeezing by means of liquid nitrogen in
an ether complex of boron trifluoride,(C 2H 5)20' BF 31 in a
metal test tube. A white crystalline substance was obtained
which was re-crystallised in water ~or heavy water) or in
acetone. 1n re-crystallisation of F B.ND from acetone, a
(;ardl/4 3 3

sov/51-4-4-6/24
Investigation of the Vibrational Spectra of Molecular COMDounds of
Boron Trifluoride with Substances Containing Nitrogen and Oxygen.
I. F B.Nlff and F B.ND-
3 3 3 .9
replacement of(buterium by hyd-rogen occurred and a mixt~ure
of compounds with different degrees of replacement of hydroCen,,
by deuterium was obtained.. This mixture was denoted by the
formula F3 B.11HiD kwhere i and k may have the values 0,
1, 2, 3 and i + k 3 . The sDectra were recoraed usinS a
spectrometer IKS-11 in the region from 2.5 to 15 IL . To avoid
absorption by atmospheric water vapour and carbon dioxide,
nitrogen was passed through the spectrometer. Samples rere
prepared by placing a layer of paste of the substance studied
between two plates of rock-salt or by placing a dxy layer of the
substance between the same plates. Raman scatterinG spectrum
of an aqueous solution of the molecular compound F 3BALM3 was
recorded by means of a spectrograph ISP-51 with a photoele-,tric
attachment UF-320. The infra-red absorption spectra of
Ir3B.vH3and F3B.DD3 are shown in Figure 1. Calculations of
the force field and vibrational spectra were based on molecular
models with C symmetry for F B..NH and F B.N'D (Figure 2)
Card2/4 3v 3 3 3 3

Sov/51-4-4-6/24
Investigation of the Vibrational Spectra of Molecular Compounds of
Boron Trifluoride with 21abstances Containing nitrogen and Oxygen..
I. F 3B. vH3and F 3B..ND3
and CS symmetry for F B.IqH2D and F 3B.14HD,. To calculate
the force constants, the authors used their own exDerimental
results on the Raman and infra-red spectra of F 3B.NH3 and
F3B.nD 3 (see table on p 471). The observed frequencies for
the mixture denoted by F 3B..NHiDk were used to check the
calculations. The force field for F 3B.NH3was calculated
by the method of Vollkenshte n, Yellyashevich, Stepanov
(Ref 18) and Mayants (Ref 13 using "spectmseopic masses"
for hydrogen and deuterium. From 49 force constants, which
determine the potential function 18 were taken to be equal
to zero. The calculated force constants are given at te
top of p 473. 11hey were calculated using the BESM computer
of the Ac.Sc. USSR. The table on p 471 shows that there is
good agreement between the observed frequencies and those
obtained by calculation using the force constants,, The
Card3/4 authors al3o calculated the coefficienbG of induction which

V51-4-4-6/24
Sov
Investigation of the Vibrational Spectra of Molecular ComDounds of
Boron Trifluoride with Substances Containing nitrogen and Oxygen,
I. F 3B..NH3and F 3B.BD3
are glven in the middle of P 473. The authors thank
A.I. Shatenshteyn for supply of deuterated aminonia and
A.I. Podlovchenko for help in carrying out the calculations
on the computer. There are 2 figures, 1 table and 19
references, 6 of which are Soviet, 8 in English. 2,Geri',;an,
1 French, 1 translation of Western work into Russian and
one other.
ASSOCIATIO14: Institut fizicheskoy khimi AN SSSR (Institute of
Physical Chemistry, Ac.Sc. USSR), Saratovskiy
Dedagogicheskiy institut (Saratov Pedag.~Dgi-al
institute) and Moskovski gosudarstvennyy universitlet
~Moscow State UniversitY5
SUBMITTED: June 14, 1957
card 4/4 1. Boron florides-Spectura

AUTHOR: Kovalev, I.F.
TITIS: Vibration: Spectra and Potential Energy GonEtantls of
I (KolabAto"n1vo
M
athylailane and blethyltrideutarosilane
spektry i postoyannyo potentsiallnoy anergi;
metiltrideyterosilan&)
PERIODIC"; Optika i Spoktroskopiya, 1958, Vol IV, Nr 5, pp 560-5~:C, k1J,`:;R.;
ABSTFACT: The force field and vibrational speetra of ane, -311"3Sj:j,3
-were calculated using tha method of Vol' icenshtayn et 0-1 - ~R-5f
and Layants (Ref. 20), using "spactroscopic maTsa5" :Cor
and deuterium. The calculations ivera wade u9ing, t'fle
geometrical parameters for the wethylsilatia (R-if.
r(Si 1 657 1, r~C-H) - lX9 X, r(Si-H) .. 1.Av 'I, wi-~-i el.;
angles totrahodral. Valui8 of t1io kitiLviidt-~e aLd dyaw:jic
coefficients in symnetry coordinates ara 1-_-;en In Table
To find the force-field coefficients t1io aut~ior x~~ed r,3s._,1tZ of
the calculations for ethane (Ref. 17), dizilan~e ~'-Pof, !_.t'), !-,--
well as experimental frequencies (Table 2). Force c,%v:1;-a.7ftE~ Pnd
Card 1/2 induction coefficients were calculated for CH.,Slifz~,
I

Vibrational Spectra and Potential Energy Constants of2lathylsilano sni 51-4-5--;/29
liethyltridauterosilane
of forces inside the CH3�iH.3 molecule was found to differ
considerably from the force distributions in ;)thane and disilanr7.
Both frequencies and forms of the normal vibrationo of methylsilano
were calculated. They are given In Table 2, which shows thqt gor'd
agreement was obtained with experimental values (the mean absolute
error does not exceed 5 cm-1). The vibrational freqaenncies for
niethyltrideuterosilane (Table Z,last col=n) were alse calculatad.
A full interpretation of the infrared vibrational spectr,,= of
methylsilane is given. The author thanks M. M. Su~.hchinsk-i for
his interest. There are I figure, 3 tables and 21 reforonces , of
which 11 are Amoricaa, 8 Soviet, 1 Genuan aiA 1 Gtech-
ASSOCIATION: Saratovskiy podagogichaskiy :LnstiWt (Saratov Petagogical Institute)
SUBMITTED: July 4, 1957
c- L 11y] s i 1 z) rV 15 r a t i c) n s p e c, tr,,3 2. Eethy'LF:1-1~3n~ -
Card 4/? - I rie-thyitrideuterosilant- - Vlbrnttoi~
3.
11. 6ethyltrideutarosilana - Energy

AUTHO7~S: Babushkin, A. A., Kovalev, I. F41 SOV/148-22-9-33/4o
Yemellyanova, Y.
TITLE: Spectroscopic Investigations of the Structure of Some
Complex Compounds (Spektroskopicheskiye issledovaniya
stroyeniya nekotorykh kompleksnykh .3oycdineniy)1.'.1olecular
Compounds F3B NH 3) and F3MID 3(1.Molekulyarnyye soyedineniya
F3B.NH3 i F3B:ND 3
PERIODICAL: Izvestiya Akademii nauk SSSR. Seriya fiz-icheskaya, 1958,
Vol 22, Nr 9, pp 1131 - 1131 (USSR)
ABSTRACT: This is a condensation of he paper which was published
under the above subtitle Nr I in the "Izvestiya Akademii
nauk SSSR" by A.A.Babushkin. The spcetra of infrared
absorption and of combination dispersion of the compounds
in question were recorded in the laboratory of the Institut
fizicheskoy khimii Akademii nauk SSSR (Institute of
Physical Chemistry AS USSR). The field of force and the
vibration spectra -were computed by I.F.Kovalev. The com-
putatiorswere based upon the model C 5D for F 3B.NH3 and
Card 1/2 upon the model C S for F3B.NH 2D and F3B."D 2* The spectrum
Card 2/2

'CIV 51
f, Lcvalj~v, I.F.
int,~rirA-atic.-I Of tn ~,,~,3ctra of
L (Ra-ZlIat i interprutataiya
C~-A- ko pi ya Vol 5 ")p 534-5q15 kUSSR)
-jaergy ecNastants &rt~ o' nonma,". vi"brazi-r-s
are of ~:onsidftrabl~s ir-t,;:7-3st in tr.3oretical and
-,h c-, 11 ca-, om nf trio s p?,ctnal
-,j7l xrr~ o f of 3) and ", ~;iH3 (R f vera already -aport6d
H,~
t - .1
with !~P-s f",-."
"):1,1! TI! a,.,,,.,bcr used data en fre;atlon7163 Ger
2 , r 3
of t~q,3 Hazan and infrared s-~ectr-~-.
-ors kiieff: 8-17).
by variorz -ork Tb j
and i~f
of lane
'Y h and !;t6mriw, -:,f

SOV/51-6-5-G/34
Galculation und Interpretation. of the Vibrational Spectra. of -i~etramethy Is i lane and
Tatramethylsilane-dlZ
Si'GH3),, and Si(CD3)4 were also calculated and interpreted. The
calculated data are listed in Tables 1 and 2 (the latter gives the
interpretWon. of the combination frequencies and harmonics in the
infrared spectrum of totramethylailans). The calculated frequencies
agreed well with the experimental ones, showing that the potential
energy constants used describe accurately the force field of the
tatrame-vhylsilano molecule. Acknowledgnent is made to M.M. Sushchinskiy
for his advice. There are 2 tables and le references, 7 of which are
Soviet, 10 English and 1 Germn.
SUEMTTED: June 7, 1958
card 2/2

S/051/60/008/03/007/038
E201/E191
AUTHOR: Kovalev, I.F. I
TITLE: ectra and Potential Functions of
Te-thylsilanes CH3 and (CH3)-SiH
S-U'31 (CH3) 2SiH2
PERIODIC Optika i spektroskopiyaj 10,60, Vol 8, Nr 3,
pp 315-323 (USSR)
ABSTRACT: This paper is one of a series dealing with tt:) force
fields and vibrational spectra of the compounds
(CH3)nSiH)+-n7 where n = 11 2, 3 and IF. Earlier papers
dealt with SiH4 (Ref 1) and (CH3)L~Si (Ref 2); the first
calculations for CH3SiH3 were also reported (Re' 3). The,,,- -
U I .
present paper describes calculations and reports more
accurate values of the fundamental frequencies (Tables 2 0
to 5) and the force constants (Table 1) of methylsilane
CH SiH3, dimethylsilane (CH3)2SiH2 and trimethylsilane
(Ca3)3SiH. The force fields, frequencies and forms of
normal vibrations were calculated using the method of
Card Vollkenshteyn, Yellyashevich, Stepanov (Ref 4) and
1/2 Mayants (Ref 5). The calculations were carried out
simultaneously for the whole series of methylsilanes

S/051/60/008/03/007/038
E201/8191
Vibrational Spectra and Potential Functions of Methylsilanes
CH-ASiH-4 (CH )2SiH2 and (CH3)3SiH
3
(03)nSiffi~-n using the results obtained earlier for ethane
and disilane (Ref 3). The "spectroscopic mass" of
hydrogen was used. Interpretation and comparison of the
published experimental results with the calculated
vibrational spectra of CH3SiH3 (Table 2), (CH3)2SiH2
(Tables 3 and 1+) , and of (CH3)3SiH (Tables 5 and 6) show
good agreement between experiment and calculation.
Acknowledgements. are made to M.M. Sushchinskiy for his
advice, and to D. Marais (Union of South Africa)q M. Randi~
(Yugoslavia) and N. Sheppard (England) for supplying their
experimental results on tne spectra of CH3SiH3 before
~ublica tion.
Card here are 2 figures, 6 tables and 12 references, of which
2/2 7 are Soviet, 3 English, 1 Scandinavian and 1 private
communication.
SUBMITTED: July 11, 1959

KOVALIV, I.F.
Potential functions of molecules of the homologous series (C5 )nSiH4-n
(n= 1 - 4). DOkLAN SSSR 134 no.3;559-562 S 160. (MIR& 13:9)
1. Saratovskiy gosudarstvenny7 podagogicheakiy institut. Rredstavleno
akad. LV. Obreimovym.
(Silicon organic compounds) (Chemical structure)

KOVALEV . I. F.
Vibration spectr= ana f6rce field of the trimethylch:Lorosilans
molec~.Ie. Opt. i spektr. 10 no.0':707-712 Je 161. (MIRA 14:8)
(Silane-Spectra)

20633
S10201611136100610091024
B104/B204
AUTHOR: Kovalev, 1. P.
TITLE: Potential functions of the molecular series (CH 3)nS"'-4-n
(n = 1-4)
PERIODICAL: Doklady Akademii nauk SSSR, v. 136, no. 6y '961, 1313-1516
TEXT: The author calculated the coefficients of force and effect between
the atoms of the moleculesq the frequency and shape of normal oscillations,
and interpreted the experimentally determined spectra,, In the present
paper, the results of calculating the coefficients of the above-mentioned
effect are given. The following parameters (given in A) were iaken from
non-Soviet papers:
r(C-H)
U.i:*isicl3 1.093
(,-,H 3)2S'C'2 1.093
(CH 3)3 Sici 1.093
r(si-C) r(sl-ci)
1.876 2.021
1.83 1.99
1.89 2.09
Card 1/8

20633
S/020/61/1-6/006/009/024
Potential functions of the ... B-104/B'204
The denotation of the coordinates is given in Fig. 1; in Table 1 the
coefficients of the abDve-mentioned effect are written down,. When
using these coefficien~,'~s for calculating the oscillations, results are
obtained, which show good agreement with experimental observations.
The following conclusions are drawni 1) When changing from tetramethyl-
silane to methylahlorosilane, the coefficients (Q,11~, ) decrease
systematically, which is related with the extension of the distance
Si-C. If one of the methyl groups is replaced by a chlorine atom. the
jump is particularly large. A spectrum analysis shows an increase of
the frequency of natural stretching vibrations. This is connected with
the intensification of the covalent character of the bonds. 2) When
the chlorine atoms are surrounded bLT silicon, a slight but systematic
decrease of the coefficients is observed, which is related with the
change in the length of the bond C - H- 3) The reciprocal bond Si-Cl
leads to an increase of its strength. 4) The strength of the inner
and outer angles of the CH 3 group is somewhat diminished. There are
figure, 1 table, and 14 references: 6 Soviet-bloc and 8 non-Soviet-bloc,
Card 2/8

1
633
6
6
102
!
61
Y
Potential functions of the 0
009
S
201
1113
1oo
4
B104/B204
ASSOCIATION: Saratovskiy go sudarstvennyy pedagogicheskiy institlit
(Saratov State Pedagogical Institute)
PRESENTED: September 14't 1960, by 1. V . Obreimov, Academician
SUBMITTED: September .10, 1960

Legend to Fig.
.
,
,.
1: 1 Ct
.
,
,
ilib
E
i fi 4 r
um con
gura-
qu
tion of the (CH sici q10
3 3
'.molecule.
81Z
% Ct 05
jj6 Ct

KOVALEV., I.F. ,
Potential fviotiono of molecules of the homDl-gouo series
(CH-4)n Spr4;.n(n w 1 - 4). Dokl, AN SSSR 142 no.5slO69-
1072 F 162. (MM 15:2)
lo Sar&~j-vskiy pedagogicheskiy institut. Prodstavleno akademikom
I.V.Obreimovym,
(Bi-lane)

KOVALEVY I.F.
------ - ------
Calculation of intensities in the infrared spectra of molecules
of the type XY3ZV3. Opt.i spektr. 12 no.5-050-556 ~~ 162.
(IMA 15:5)
(~blecular spectral (Silane)

-I -KOVAIEV, I.F. -
Vibration spectrum of methyltribromosilane. Opt.i spektr. 13
no,ls63-67 Jl 162. (MIRA 15.7)
(Silane-Spectra)

PVAISV, I.F.
Caloulation of normal vibrations of dimethyldibromeilane
and trimethylbromsilam., Opt. i spektr. 13 no.3:335-340
s .62. (MIRA 15:9)
(Silane--Spectra)

4;- 559 -1960
id -VC~bOS*j~ 13iP
.Uslsszt~,! 14i,-;;lO,69 O,P-t ",-i
9"t e xesults' for'me"thy, L, t" ,-iiiu~r
S~#dk, ', Tsi igftticwl-~O - tbG'~~
the,'lorce
:-author-*
CH S' the
sPhyi 23- `351~ 196 -on

nb
PH.
ro--.o vedv,:*it)
,r o
y'l.-.-t- iuluoi-oh
'in it's, I m lii~
o.- wor

I.P.- I
Ex=ination of vibration spectra of dimethyldifluorosilane
and trimethylfluorosilane molecules. Call Cz Chem 28 no.6-.
1364-1373 Je 163.
1. Saratv,,skiy Gosudarstvennyy pedagogicheskiy Institut,
Saratov. SSSR.

3/020/063/ 148/003/0 16/037
Big 1,6102
AUTHOR: Kovalev, I. F.
TITLE: Potential functions of the molecules of the homologuous
series (CH 3)n Sip 4-n (n.1,..4) .
PERIODICAL: Akademiya nauk SSSR. Doklady, v. 148, no. 3, 1963,
569-572
TEXT: The methods proposed by M.V. Vollkenshteyn et a!.
molokul '- Molecular vibration8 -, 1, M.1949) and L.S. T."ayants (Teoriya
i raschet kolebaniy molekul - Theory and calc6lation of molecule vibra-
tions -, 19060) are used for calculating bond strengtbs and mutual effects
of the molecule groups in (C'-~)n sip 4-n compounds. 1. The forces due'to
vibrational. changes in the bond lengths r are also'determined. For
ell3sip 3 Y (ell 3)2S'F2 and (C"3 ),sip r(c-ii) = 1.1o, 1.09, 1.093; r(S i-C)
9
1.88, 1.69, 0.87; and r(Si-F) = 1.55, 1.569 1.55; - r is given in A for
the equilibrium positions. The numerical results cover a table of two
pages; they show how the forces and the mutual effects change from one
Card 1/2

J
0
S/020/63/148/005/018/037
Potential functions of'the ... B1 91/B1 02
comnound to the other. This change is ooverned by a certain la%~ f a
methyl ,,,roup is replacoA by F atoms the Si-C bon,1 otrent;th increases by
about 10-/',, Similar effects are also observed on Cl or Dr substitution.
if halide atoms are added to Si atords an induction effect is observed,
i.e. the moiecular electron shell is displaced toward the halide. The
Si-F bond strength increases with the number of F atoms at the Si. The
C-11 bon,~ strenEth and the HCH angles remain almost equal for all molecules.
The valency U(C-H) and inner stretching vibrations 6(CH3 ) -in methylhalide-
silanes are characteristic in frequency and shape. The changes in bond
lenEth due to these vibrations are calculated with an accuracy of
0.0001
A. These changes are of the order of 0.001 to 0.01 A and deDend
very little on n, except for V(Si-Hal), where they amount to 0.02053 for
n-1, 0.0096 for n=2 an3 0.0035 for n=3. There are 1 figure and 3 tables.
ASSOCILTION: Saratovskiy gosudarstvennyy pedaLgogicheskiy inStitut
(Sa.ratov State Pedagogical Institute)
PRESENTED: August 1, 1962, by I.V. Obreimov, Alcademician
SUMUTTED: August. 1, 1962
Ca-L-d 2/2

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- . . . - I i . . . " . I- . - - . . . - . r,

. . ., . . .I . . . . & - . -. - - -
. .. . I

VAGANOVA, I.P.,J~~ALFV, I.F,
Cilculation and Interpretation of the vibrational spectrum of
diMly1methane. Opt. i spektr. 17 no.(--.960-961 D 164.
(MIRA 190)

KOVALEV., 1. F.----
Vibrational ripectrm mnd forco fiold of methyltrifluorosilans. Opt.
i spckt. 15 no.2tl86-189 Ag '63. (MIRA 17--1)

KOVAI-rVv 1. F.
wExpertmental Data on tho Antagonism to Biological Action of Individual
Portions of the Radiant lberor Spectrum." Cand Med Sci, Odessa State Med-
ical Inst, Odessa, 1953- (R&Biol.. 116 6, Nov 54)
Survey of Scientific and Teohnic&l Dissertations Defended at USSR Higher
Educational Institutions (U)
SO: Sum. No. 521, 2 Jun 55

KOVALIV, I.F.
Specificity of biological activity of ionizing radiations. Ked.rad.
1 no.4:7-14 Jl-Ag 156. (MILRA 9:12)
1. IZ Ukrainskogo nauchno-issledovatel'skogo eksperimentallnogo in-
otituta glaznvkh bolezney I tkanevoy terapil Im. akad. V.P.Filatova
(dir. - akad. V.P.Filatov)
(RADIATIONS. off.
Ionizing radiations on biol. substances)

e /I'- //-.-.E?'CSPTTA ~TBICA SEC. 12 Vol. 12/8 Ophth. Aug. 58
1422. PATHOGENESIS AND PRINCIPLES OF TREATMENT OF RADIATION
CATARACTS (EXPERIMENTAL INVEZTIGATION) (Russian text)
Kovalev 1. F. - OFTALM.ZH. 1956, 5 (271-278)
Experimenrs -werE -carried out on 192 rabbits (350 eyes) irradiated with roentgen
rays in doses of 600-3000 r. , with an observation time of up to 2 years. Histologic
examinations were made on 78 crystalline lenses, Including 11 lenses from control
(unirradiated) eyes. Development of cataract was studied by biomicroscopic and
histomorpbologic methods. Biomicroscopical examination revealee- the appearance
in the irradiated eye of irregular delicate radial, granular or noccular opacities on
thtt anterior surface of the lens just beneath the anterior capsule. All 3 types of
opacification developed within 3-4 months after the irradiation. llistornorphologic
examination revealed pictures of damage.to the normal structure which varied with
the development of the process and of its course. The author believes that the
immediate cause of cellular death following an ionizing radiation Is not theradiat-
ton damage to the cells but changes in the conditions of the medium to which normal
cells must adapt by means of morphologic and functional reconstruction. Resulting
from the specific action of Ionizing Irradiation the regular differentiation process of
the epithelial cells of the ienticular equatorial zone is disturbed both in the direction
of formation of epithelium and of formation of lenticutar fibres. It was found that
after large single dos,~s (more than 1500 roentgens) a suppression of barrier and
trophic functions of t~e anterior and posterior capsular epithelium came to the
foreground, The disturbances of the differentiation process of the lenticular epi-
theUum ate yegfirded as a basic link In the mechanism of the development of Irra-
diation cataract. The solution of the problem of a rational treatment of the lenti-
cular radiation damage (also of radiation damage to other tissue) must proceed
-along the lines of study of the factors which would stimt late the adaptive function
and the differentiation process of the cells, (S)

6 Vq t_,t~ Y,
`The Specific Nature of the Biological Action of Ionizing Radi-
a+.i on, " b, A
.1 1. P. Yovalev, Candidate of Medical Sciences, Ucrvin-
itui ExTcrim-on~t~nstitutc of' Ophthalmic Discascr, imeni V. P.
Filatov (director, Acadertl.,~ian V. P. Filatov), Vestnik- Rentgen-
ologii i Radiologii,, Vol. 31, No 4, Jul/Aug 567PP 54-63
Tests were run on infu6oria (Parampecium caudatum) in an effort to
elucidate the specific nature of the biological effects of ionizina radia-
tion. Radiation injuries catsed by varying doses of X rays conl.~ _e clas-
sified into three-stages: 1~ First stage in which infusoria wereo ir-
'Liat
r
ac Led by small doses. j~ practically irreversible decreased capacity
for adaptation to new conditions of -external environment occurred, with
evidence of some slowing of the functions of multiplication. (2) By using
larger doses there was a decrease or loss of the function of multiplica-
tion and motion in addition to decreased adaptation, but the disturbance
of conjugation and motion was easily reversible and was not transmitted
to subsequent generations. (3) The third stage is characterized by the
irreversible loss of the function of adaptation, reproduction, and motion
and death under rays.

KO VA L IZ7 V/ I F
The author concludes that injuries appearing in the first stage and
due to small doses are specific and are expressed in the decreased func-
tion of adaptation while all the other vital functions remain intact.
The biological action of ionizing radiation in the second and third stages,
however, are nonspecific and are expressed in a general denaturation of
important enzyme and protein complexes.
The comparative relationship bet,een intensity of ionizing radiation
to specific and nonspecific injuries are: with the increase of done there
is an appropriate increase of intensity of nonnpecifio gem2ral-denaturation
aymptonq, but increasing the dose has very little effect on the specific
effect.
6

KOVALEV. 1.F., atarshiv nauchny7 sotrudnik
ritique of certain baslo concepts in radiobiology. Vest.rent i md.
13 no*'3V')7--5? 97-Je '58 (MIRA i1:8)
1. Iz Ukrainekogo nauchno-issledovatellalrogo Akoperimentallnogo
institutn glnznykh bolvsney i tkanevoy terapii imeni akad. V.P. TilRtov&
(dir. N.A. Puchkovskava).
(RADIOLOGY,
rAdiobiol. baoic: concepts (Ibis))
(BIOWGYI
basic concepts (Run))

-4
ACC Nki AR600010. SOUM CODI: UP/OD3B/65/dbD/0DB/DD1T/DD1T
SOURCE: Refe zh~ rizikaj, -Abet 0131,
AUTHOR: 10 FO
OrG: none
TITLE: Vibration spectra and potential-energy. constants of methyl fluorosilanes
CIM SOURCE: , Sb. Spektrookopiya. M. I Naukaj ig&, io&no
2j. q 14)
TOPIC.TAGS: fluorinated organic'compoundp,vibration spectrump Gscillation strength
TRANSIATION: The vibration problem was.solved for the homological series
(CQn6'X4-n (n X H, C1, 1*,, F).-_ An -analysis of the results of,thecal-
culations shows practically corglete agreement between the compitea and measured
frequencies of almost all-normal oscillations.' The frequencies are classified by
oscillation modes and are int ed The values of the forcq coefficients of
erpret -
methyl fluorosilanes are,givent T'he results of the calculations are discussed.
T_ YMLknV1PV_

. KOVALEV, 1 6 . inzli
Ret djustuble pneumatic-meclianj cul ,Ievice, for "lie asse-ribi-I p, and
Ln.
tack welding of eleeturde mot.or bodies. S,,rar.i-.-Azv. no.4,3:,-35
.A.-P 164. (MIRA 18:4)
1. Novosibirskiy turbol.,eneral.orivy. Zavod im. XX s".yezda
Korumn-isticheskoy partii Sovetskogo So--aiza.

HOVALEV, I.F. (Leningrad)
Archival materials on hydraulic engineering and melioration.
Gidr. i mel. 16 no.9:60 S '04. (MIRA 17:11)

KOVALEVY I~F.
Gal-ciilation of the electro-optical parameters and intensities in
the infrared spectra of molecules of the type XY 41 XY32, and XY2Z2,
Izv. vys. ucheb. zav.; fiz, no-5:102-105 164.
(MIRA 17:11)
1. Saratovskiy pedagogicheskiy institut.

FRUDKINY Ya-M-P g0rnYY inzh.,* KOVALEV, I.G., gornyy inzh.,-,
BATMANOV, Yu. K.,, gornyi-If-M-N.-
Effeot of 'the increased advance rate or length of the longwall
on the improvement of technical and economic indi"s,
Ugoll 37 no.ls22-24 Ja 162.j (hM 15s2)
(Mining en,ginearing)

GRIDIN, A.D., inzh.; SAMSON, G.N., inzh.; PRUDKIN, Ya.M., inzh.,- KOVALEEV,
I inzh.
.L.G.
Ways of obtaining a record-highoperative capacity of coal
cutter loaders. Ugol' 37 nd.8%49-56 Ag 162. NIRA 15-9)
1. Gosudarstvennyy proyektno-konstruktorskiy i eksperimentallnyy
institut ugollnogo mashinostroyeniya.
(Coal mining machinery)
(Coal mines and mining~-Labor productivity)

KOVALEV, I.G., inzh.; FIIL,YLIK, V.Z., inzh.; SPADKIIAN, Inzh.
Efficienc-v in using new means of mechaniZing ore mining operations
at upper Kama potash mines. Gor.zhur. no.1:0--10 Ja 165.
(MIRA 18:3)
1. Gosudarst'vennyy proyektno-konstruktor,,3kiy i eksperimentalInyy
institut ugollnogo mashinostroyeniya (for Kovalev, Kheylik).
2. Gosud-rstvenn~vy soyuzny~ institut po proyektirovani-yu predpri-
yatiy gunokhimicheskoy promyshlennosti (for Shadkhan).

137-58-1-727
Translation from: Referativnyy zhurnal, Mekhanika, 1958, Nr 1, p 108 (USSR)
AUTHOR: Kovalev, I. G.
TITLE: A Die for r7t-ting Hexagonal M8, M10 and M127 Bolt Heads
(Shtamp dlya vyrubki shestigrannykh golovok boltov M8, M10
i M 12)
PERIODICAL: Mashinostroitel', 1937, Nr 5, p 38
ABSTRACT: A die for cutting hexagonal heads for M8, M10 and M12
bolts has been developed and introduced. The blank used is a
turned or cold-upset bar with a round head cut on six sides
in dies of El- 161 or 9KhS steel., The clearance between the
die halves when the plunger is in the low position is 0. 3-0.5
mm. The die is provided with a guard and guides.
V. Ya.
1. Dies-Davelopment 2. Dies-Zhuracteristies
Card I/ I

123-1-450
Translation from: ReferatIvnyy Zhurnal, Mashinostroyeniye,2957,
Nr 1, p - 75, (USSR)
AUTHORs Kovalev, I. G.
TITLE: Trimming and Blanking Die for Holes for Threading(Shtamp
dlya otbortovki otver8tiya pod rez'bu i vyrubki konturaj
FF.R16am: Sbornik ratsion.predlozh. Min-vo Blektrotekhn.Prom-sti
SSSR, 1956, Nr 3 (61), P-17-28
ABSTRACT: Trimming holes in workpieces was done before in a second
operation after the part was blanked,-and often creating
the'spoilage.along the draws. A new, combined the with
special trimming punch is proposed. ,This one will simul-
taneously pierce the hole and trim it with the progressive
movement of the slide; then, after the stock is moved
two stops, the part is blanked. To nvoid ragged edges
it is recommended to use the die in a slow-operating
press. M.I.N.
Card 2/1

137-58-1-1884
Translation from: Referativnyy zhurnal, Metallurgiya, 1958, Nr 1, p 254 (LJSSR)
AUTHORS-- Kovalev, I.G., Kovaleva, Z.N.
TITLE: Hardening of Mg-Zn-Zr Alloys by a Combination of Heat and
Mechanical Treatment (Termomekhanicheskoye uprochneniye
splavov sistemy Mg-Zn-Zr)
PERIODICAL: V sb.: hfetallurg. osnovy lit'ya legsikli splavov. Moscow,
Oborongiz, 1957, pp 429-441
ABSTRACT; The properties of alloys of the Mg-Zn-Zr system, VM65-3
and VM65-1, are described. Alloys VM65-1 and VM65-3 are
strengthened by aging, in the process of which a finely dispersed
hardening phase MgZn2 is liberated. Various aging procedures
are examined, The following optin-ium aging regirrie after hot
extrusion is recommended: t6niperatuna 1500 , holding 24 hours.
Annealing on extruded semi-finislied products at 3500 for I hour
leads to softening as a result of re-crystallization and partial
solution of the hardening phase, and therefore annealing should
not be performed if high mechanical properties are to 'be pre-
served. Re-.extrusion of alloys provides a finer crystalline
Card 1/2 structure and increases strength as compared to a single

13 7- 58 - I - 1884
Hardening of Mg-Zn-Zr Alloys by a Combination of Heat (cont.)
extrusion. Hot drawing at 240-2500 reveals a 3-5 percent increase in the
strength of extruded blanks.
P. V.
1. Ulayu-Mardening 2. k1l.oys-Ileat treatment
Card 2/2

KOVAlEV, I. G.
Davydov, Yu. P. '; T. 'G. Kovuh-v; mO G. V. PuI:rovkj'y. SPUCIOLI
Fe-at, tires of Sheet rorriing of Aircraft Steel and Aircraft
Alloys. P-103
Pressure Treatmeat of Alloys; Collection of Articles, Moscow, Oborongiz, 1958, 141pp.

f n
let!
pr
ro~
9 E5
P9
va 9 p
DR , -
w U957
IN -
,j
rg

65M31
S11 36/60/000/05/012/02 5
E071/E235
AUTHORS- Kazakov, A. A Kovalev, I. G., and Kolparghnikov, A- T
Heat ResistanA_ );1 6"
TITLE: t, eformable Magnesium Allo MA13i
PERIODICAL: Tsvetnyye metally, 1960, Nr 5, pp 62-65 (USSR)
ABSTRACT: On the basis of preliminary investigations of various
magnesium alloys, carried out during 1956 to 1957 by
VIAM and literature data, an alloy of the system
Mg-ThLi~Aunder the name of MA13 (similar in composition
to an American alloy NM2lKhA) was found to be the most
heat resistant and was chosen for more detailed investiga-
tions; the results of these are reported in the paper.
A few heats of the alloy were prepared for the investi-a-
tion in a steel crucible (12 kg) with the application O.L
flux V12. Magnesium and alloying addition MGS-1 was
melted at 1700 to 7200C. Thorium was introduced in the
form of turnings at 8000C in a preheated bell. During the
introduction of thorium, the surface of the metal bath
was covered with a small amount of flux containing 55016 of
KC11) 28% of CaC12, 1W0 Of BaC12 and 2% of CaF2. The alloy
(cooled to about 720 to 7400C) was cast into metal moulds,
reheated to 100 to 1500C. The experimental ingots
Card 1/3 M X 150 X 300 mm) were rolled into sheets 1-to 6 mm.

69831
S/136/60/000/05/012/025
E071/E235
Heat Resistant Deformable Magnesium Alloy MA13
thicki on a two high mill with rolls 4000 mm in diameter,
preheated to 100 to 1200c'. Temperature at the beginning
of rolling 450 to 50000,at the end of rolling 300 to 3500C7
reduction per pass 20 to 30*. Rolled sheets were
thermally treated with an intermediate cold rolling-
a) heating (for hardening) to 550 to 5600C with a 30
minute soaking in a protective atmosphere (sulphurous
gas) and cooling in air; b) cold rollinE with total
reduction of 7 to 10%; c) ageing at 200'-C for 16 hours.
After hardening, the sheets were pickled in a 5% solution
of nitric acid and hand dressed. After hot rolling, the
alloy possessed a fibrous structure of a deformed,
partially recrystallised material. After hardening', a
fully recrystallised equiaxial structure is formed. The
physical properties of the alloy are entered in Table 1;
the mechanical properties are given in Table 2; a
'~compa ison ot the mechanical properties of the alloys
LL411 %A2-1 WMA8 with those of MA13 are given in Tables 3,
4 and Fig It was found that at temperatures above
Card 2/3 2400C alloy MA13 possesses superior mechanical properties

V, .,Ij.
A0Vh-1-J5V
DIVIDOVA, G.V.; Ii&fR, M.I.; ALSKSBYRY. N.A.; my X.I.; DANILOV, A.Ye.;
U LBY
SHENDRIKOV, G.L., i.o'. glavnogo metodista.; 4ORMLOAV7.4I.P., redaktor;
PAVWVA. M.M.. tekhnicheskiy redaktor
(water resources management and rural hydroelectric power stations"
pavilion; a guidebook) Pavilion IV;)dnoe khosiatetvo i sellskie
gidroelektrostantaii"; putevoditell. Moskva, Goa. izd-vo selkhoz.
lit-ry. 1956. 21 p. (HLRA 9:12)
1. Moscow. Vaesoyuznaya sel'skokhozyayatvennaya vyatavka, 1954-
2. Direktor pavillona (for Danilova)
(Moscow--Agricultural exhibitions)
(Water supply, Rural)
(Iiydroelectric power stations)

KDVALEV, I.I.,inzh.leanogo khozypyRtvn (stnntsiya Sukh3nichi)
I-,.,---,-INew method of shelterbelt tillage. Put' i put. khoz. no.4:33-34
Ai) 15 8. (MIRA 11:4)
(Windbreaks, shelterbelts, etc.) (Flows)

FlIris of Sallium arsenide and their properties. V. A. Presnov,
L. G. Lavrent'yeva, M. D. Vilisova, I. K. Kovaiev.
On tne physico-chemical nature of the formation of contacts of Sallium
arsenide with metals. V. A. Presnov, A N. Vyatkin.
;Presented by A. N. Vyatkin--10 minutes~-
Report presented at the 3rd National Conference on Semiconductor Compounds,
Kishinov, 16-21 Sept 1963

AUTHORs Lavrentlyeva, L. G.; Kovalev I. K /_2
TITLEa Preparation of single-crystal germs ium film by sputtering in Y'a-'e'lulm-
b Ivi
SOURCE: Ref. zh. Elaktronika I yoyeUprimeneniye, Aba. 9B89
REF SOURCE: Dokl. Nauchno-takhn. konforentail, pouvyashch. dnyu radio. Tomsk#
T 0, 19649 3-6
2"A1X_UR__t-
Z
TOPIC TAGSt single crystal semiconductor single crystal, germanium single crystal
~_f Go were obtained at substrate temperatures of the
ABSTRACTt Epitaxial films o
order of 450-5000C. Go of-p-type was sputtered from a tungsten spiral onto an
n-type Go substrate. The source temperature was 1100 to 13009C. The bass tempera-
ture was maintained by an external heater within a range of 450 to 6500C. The
pressure in the system was lo-5 am Hg. The optimum sputtering rate was found to be
Ip/min. At high sputtering rates a film with a fine-grained deposit on the
urface was obtained. The film thickness was 3 to 151A Sputtering of a Ptype
;ilm on an n-type Go substrate resulted in the formation of p-n junctions. The
contact was fused Into the film with pieces of Sn in air at a temperature close to
thV W81ting Point of Sn. P'Llms not protected by Sn were etched away with perhydrol.
2

L 32620-66
ACC NRt
The volt-ampere characteristics of the obtained p-n Junctions
fication coefficient of 26Wta forward current of 520 t4amp,
Mt4amp. The relatively high back currents were apparently
concentration dsfecte in the film. Refs.1 3.
SUB CCDZ~-, 20/, , ' , SUBM DAM none
0
indicated a recti-
and a back current of
caused by the higher
N.Sh.
2/,2 1=9

ZHDANOVSKIY, N.S.; KOVAUV, I.M.; KHASHCHIIISKIY. V.P., -professor.
[Rural thermal electric power stations] Sellskie teplovve elektro-
Btantaii. Pod red. V.P.Khashchinakogo. Moskva, Goo. izd-vo sellkhoz.
lit-ry, 1953. 123 P. (V pomoshch' sel'skim elaktrifikatoram)
(KL'RA 7:3)
(Electric power plants) (Heat engines)

, I.M., inzh.,, in-th.
~PYAIEL I f4
Annealing malleablr,, cast -1rc)rj in ;'urna.,,,c;
with a protective atiim;ipber~,. Mla,;n -;nc,,-~trocrie 165.
I11"IfRA IM"!)

YOVAUV,, ~.nzh~
~
Automalic-machine for the he~Lt treatinent of di~k6. Mas'hih6 tio6nii
? s ,
n6,2�26-27 Mr-Ap 165, MRA 18:6)

L 3272-66 W-WISVIPW4.1 JDARK,
:ACIC AP5025606
UR/0135/65/000/016/0004/0006
621.791.75.01:538.122
AUTHOM Kovalev, 1. H. (Engineer)
TITLE: Deflection of welding arc in a.trensverse magnetic field
j
S01MCE: Svarochnoye proizvodstvo, no..10, 1965, 4-6
TOPIC TAGS: arc welding, transverse magnetic field, plasma jet, welding electrode,~
tungsten
ABSTRACT: The deflection of the welding arc,in atransverse magnetic field of con-
stant intensity is the most elementary form of the interaction between the arc's
magnetic field and the controlling magnetic field. The pattern of this deflection
is determined by an analysis of the forces acting on,the arc-discharge plasma. In
this connection the authors present the results of an experimental investigation
performed to verify the theory that the model of a flexible conductor with current
applies to this are. A homogeneous magnetic field was created by means of coils. The
relationship between the intensity of.the transverse magnetic field N, the arc
length and the current intensity I a determined by means of a device consisting
wa
of electrode 1 and fixed anodes 2 and 3 isolated from one another and connect6ed in~
parallel to the circuit of the are current (see Fig.~l of the Enclosure), on fixing
Cu) are burning in
at e.g. 60* the angle of deflection of a DC direct-polarity (W- g in
1/3
r

..1 3272-66
J
ACC NRe AP50215606
argon (tungsten electrode) within the traneverse.magnetic field. On this basis, it
0 e c column by the intrinsic magnetic field and
is shown that the compression f th ar
:its stabilization by.the plasma jet endow. the.are with the properties of a flexible
conductor with current, whose deviati r_ etic iield obeys Am-
o in the transverse magn
perels law. Thus, the specific property of the are ass, plasm conductor consists in
that the Lorentz forces induced in the arc column by the intrinsic magnetic field
of the moving charges are direct Ied toward the column's center. These forces, cam-
pressing the column, create a pressure field whose gradient compensates the Lorentz
forces%.
gradp I
C
On this basis) the author derives empirical formulas fordetermining th6 deflection
angle and anode-spot displacement-,of.the arc in the presence of a transverse magnetic
field of.constantintensity. Orig-. art. hasf 7figures, 11 formulas.
ASSOCIATION:', MnV im. Baumana
SUM41TTED: 00, 01: SUB CODE: XC~ EM
W REF SOV:, 004 OTHER". 001
2/3,
_Card

L 3272-66
ACC MRs =CLOSURE: 01

L 3271-66 iWm)/ER(v /T/ERW/WP(kVE-A JDAM
MC NRe
AP5025607 UR/0135/65/000/010/006/0009
621.791.75.01:538.122
AUTHOR: Kovalev, 1. M. (Engineer); Akulovf,Ao 1 1 Sciences)
(Doctor of technics
TM)
TITLE: Stability of welding arcin a transverse magnetic field
SOURCE: Svarochnoye proizvodstvo, no. 10, 1965, 6-9
verse magnetic field, welding arc stability,
TOPIC TAGS: arc welding, trans
welding electrode
ABSTRACT: The possibility of controlling~the stability of the- welding are by means
of a transverse magnetic field is markedly restricted by the arcTs inability to elan-
gate without disrupting when deflected-,by such a field. It is shown that this re-
striction may be to a large a' i-
xtent-,elim nated by stabilizing the are by means of
the flow of the protective gas. This results in equalizing the plasma velocity field
and increasing the total velocity,of the cathode flow and thus in deforming the
are as a single whole, particularly in theupper (near-cathode) region of the column.
Another method of stabilizing the are is the employment of the so-called "directing
wall". In this case, the arc diechargemoving in a commercial-frequency transverse..
magnetic field is bounded by two graphite or cooled copper blocks (see Fig. 1 of the
Enclosure). A tungsten electrode tind the protective gas are passed through the space
between the blocks. The flow rate of the argon is 7-8 liters/min, which precludes
Card 1/3

KOVALEV, I.M., inzh.
Deflection of welding area in a transverse magnetic field. Svar.
proizv. no.10:4-6 .0 165. (MIRA 18110)
1. Moskovskoye vyssheye tekhnicheskoys uchilishche im, Batimana.

KOVALH, J,M_ 1 i ~h. ;'KTAV, doktor tekhri. nauk
of' it vi e Id j r) ty
',J arc Jn a triinsvernf, 7vignetic, f,10.11.
;)W'. no..'Iffi6-9 0 16'. (mill )-101
r. , n m" j
1. t~wkovskcye vyssheye tekhnicheskoye uchilishche im. Daimarm.

L-3584-66 EWP(k) /LN'T W /T/E1Q(v) /F30 (0/19T IIJP(c) JDADI
ACC NRi AP6013248 SOURCE CODE: UR/0-1-2-37i~676Wr66~TOYS-CIW~-7 -?3
AUTHOR: Kovalevi I- M- J-7-
ORG: Rostov-on-Don Institute of Agricultural Machine BtkV1Aipg (Rostovskiy-na-Donu
institut sellkhonmehinostroyeniya)
TITLE: Compressed-arc spot welding of joints
SOURCE: Avtomaticheakaya avarka, no. 5, 1966, 56-57
TOPIC TAGS: arc spot welding, arc welding, spot welding, welding technology/St.3
steel
ABSTRACT: Experiments performed by the authors showed that the use of a high-speed
jet of C02 during gas-electric welding makes it possible to increase the depth of
fusion; the latter increases markedly with decreasing rate of motion of the arc,
owing to both the attendant increase in the linear energy of the arc and the improve-
ment in the conditions of interaction between the gas jet and the molten layer under-
neath the are. Hence, the melting power of the compressed are may be maximized when
the welding rate is-zero, i.e. during arc spot welding. This has the disadvantage of
leading to a rapid increase in the extent of the molten layer underneath the arc,
since the overall amount of the molten electrode metal and molten base metal in-
creases proportionately in time. This, however, can be remedied by adjusting the
pressure exerted by the San jet on the weld pool. Fig. 1 presents the flow rate VC02

L 3581-)4-66
ACC NR. AP6015248
-r - i n
U
C4
3"
>&

-- 166
1 it 7

-I I I
I __ I_L _
T7 7: H:
A
00

z
t, sec
Compressed-arc
Fig. 1.
CO -shielded spot welding cycle
2
for St.3 steel 14 + 14 um
(electrode diameter 1.6
of the gas as a function of the time of the full cycip of a single arc spot welding
operation with respect to the welding of St.3 steelj( This cycle may be divided into
5 basic periods. During the first period-tj the are is struck and the required
-minion of molten metal in created underneath it, During the second period t2 the ga
is supplied at a fast rate (100-120 u/sec2) and the are is plunged into the metal to
that the required depth of fusion Is attained. During the third p*riod t3 the arc is
2/3
Card

L
35814-66
ACC NRo AP6015248
held fast and the spot base is welded up. During the fourth period t4 v 0 is re-
duced to its original level and the arc begins to weld up the hole. Durini the fifthl
p::!od t5 the welding of the spot is completed. Optimal welding regime (for St.3
a 1 6 - 14.+ 14 mm): electrode diameter 1.6 mm 130-150 m/sec, 480-520
Uw - 32-35 v, electrode reach 10-12 mm. Orig. art.
, VE23: 2 figures and Lable
SUB CODE: 11,13/ SUBM ME: 20Dec65/ ORIG REF: 000
,-?"v

KOVALEV, I.N. (deceased); TRYAPITSYNA, L.N.
Bibliographic index of works completed at the station of the
Astrakhan Preserve. Trudy Astr. zap. no.5:353-369 161.
(~nHA 16:8)
(Bibliography-Astrakhan Preserve-Natural history)
(Astrakhan Preserve-Natural History-Bibliography)

KOVALEV,,_I.F ;, PROKOPENKO, A.P.; TITOV, Ye.7.
--.0
Spectroscopic study of some unsaturated six-membered lactones.
Ukr. khim. zhur. 29 no.7t740-743 163. (MM 16:8)
1. Khar'kovBkiy nauchno-isslovatellskiy khimiko-farmatsevticheskiy
institut.
(Lactones--Spectra)

KOVALKV, I.P.; TITOV, Ye.V.
WAVAISW
Infrared abaorption vmctra of natural compounds. Part 1:
Flavonoids. Absorptibw bands of carbonyl and hydroxyl groups.
Zhur. ob. khim. 33 no.5:1670-1676 My, 163, (MIRA 16t6)
1. Kharlkovskiy nauchno-Issladovatellakiy khimiko-farmatsev-
ticheBkiy institut.
(Flavonoida)
(Carbonyl group-Absorption sDactra)
(Hydroxyl groupAbsorption spec#r)

DALT, V.I.; ZMIYEVSKIY, P.K.; KOVALEV, I.P.
lloavy rofininp rijaiduos of Volpogn,,~i ~,fxoloillllfl 1*1114 11110,01',1411.11
for Ow rotardod coking procean. Izv. vy.). uclieb. zav.; neft' I
J
gaz 6 no.10:55-58 163. (MIRA 17:3)
1. Dnenropetrovskiy khimiko-teklinologicho3kiy institut im, Dzer-
zliinskogo.

L 33ZTI!!6k--
ACC NKs
aOI6193 SOURCE CODE. uR/OO58/65/OO0/O1l/DO25/DD25!
AUTHOR- Koval.ev, 1. P.i Titov) Ye. V.
TITLE: Infrared absorption spectra of natural derivatives of M and 7 Pyrone
SOURCE: Ref. zh. Fizika, Abs. 11D191
REP SOURCE: Tr. Komis. po spektroskopii~ AN SSSR,-t. 3, vYp- 1, 1964, 637-643
TOPIC TAGS: ir spectrum, absorption band, spectrum analysis, hydrogen bonding,
chelate cm1pound
ABSTRACT: The authors investigaied the ir absorption spectra of 55 flavoncids,
coumarins, and furocoumarins, and propose a classification of the frequencies in the
40oo - 650 cufl. It is shown that spet-troscopic identification of the derivati'ves of
M and y pyrone by means of the frequencies and intensities of the absorption bands of
the hydro)WI, carboxWl, and other groups is possible. The chelate hydrogen bond of
the flavonoids, vbich plays an important role in the manifestation of their biological
action, is investigated. Work is done on the preparation of a chart of Ir spectra
of the derivatives of a. and y pyrone (standardization of the measurement of the
spectrum, development of type of documentation). [Translation of abstract)
SUB C;M 20, 07
Card

KOVALEV, I.F.; LITVINENKO, V.1,
Flavonold glycosides. Part 1~ Monoglycosides. Khim.prlrod.
soed. no.4s233-241 165. (YIPJI 19,00
1. Khartkovskiy nauchno-issledovatellskiy khimiko-farm-atsevt-4-
cheskly institut. Submitted Parch 23. 1965.

KOVALEV, I.P.; TITOV Ye.V.P* CHERNOBAY, V.T.;
,'c
Infrared si:-ctra of glucosides of the strophapthidi-ri series.
Ukr.khim.zliur. 31 zio.5*513--516 16~,
(MIRA 18:1?)
1. Khar'Yovqkiy nauchiio-issledovatellskiy Rhimilko-faTmiatsevticheskiy
institllt. Submitted Dec. 6f 19i')-3.

KOVALEV, I.P,,__starshiy inzh.
PrerefixLtng of petroleum. Neftianik 6 no.4:15-17 Ap 161,
(MIRA 14:8)
1. Stalingradstiy sektor Spetsiallnogo konstruktoreskogo
byuro po avtomatike v nefteperarabotke i neftakhimii.
(Stalingrad--Petroleum-Refining)

in:,h.
Rucdcoit,ming a I)rcss-irc-iracuum, distillat:Lon unit. 17'eft-2anji,
6 nc,?:j6-j"1 3 16--o 14-:10T
a - -
I- Stali:1,1T dshly nc'toporerabatyva,,-ushchiy zavod.
(Distil)ation apiaratus)
)~l

4-) 195~

T i t I vy By atau In Snbctitutina

pc,ojojroa,t~rv.~ i.958,t No 61

1l va* at t~* c ~:D~o ("4*
unen i"o
'
~--ln, '01, holloy) to
FVlt-a; -' - * L Ail
entrance of tlje upper of the h~v(-~ or -W-to
t 114_1 :-.'t0Ttkge paltlt~ '~'J'jt,ho~4t rt!V0VJ-t);7 trifl Old
'-,h 20 out of 24. tY.o Ovmgo,
the quoerv~ procee-A-ad vatisfact~,rily. 'it -w-nq
obser-vod "Unt Lhe qualm vq~epts mo~m TGadt~.y
L-trong ~-,Olcxllas ;rhope; devalotmonu, ha~6- bi~--ua
Completed. If thr, cvoli;wny does not aece-pr.
1/2
ar

VISHIW,VSKIY, Nikolay Yevgenlyevich; GLUKHANOV. Nikolay Parmenovich;
E Y~ ~vn Sidorovich; STOLYAROV, V.L. retBenzent; MVJCIN,
.Ix4w,
op
G.I., kand iddi MEicheskikh nauk, redaktor; CBMIOUSOV, N.p.,
inzhener, redakto::; GOFMAN, Ye.K., redaktor izdatel'stva;
SOKOLOYA, L.V., tekhnichookiy redaktor
[High pressure apparatus with hermetically sealed electric motors]
Apparaturs. vysokogo davlenila o ekranirovannym elektrod-vigatelem.
0
Moskva, Gos. nauchno-tekhn. izd-vo ma8hinontroit. lit-ry, 1956.
178 P- (MIRA 9: 8)
Ollectric motorn) (Machinory industry)

Catef"
Cory Radio Ph ysics, Radiation Of Radi
Linesaid Antonrias 17aveS. Trans-
Jour '~ef Zllur - Fizika 11..fc) 3, 1957, 11o 7287
Author Kovalova i.S.
Title Calculation Of Wave Attenuation ill Rectal-l'I'lar
J1 thO Aid of
'7' 4 Nave 1, Ui d 0 S
Pub Tr. Ryazansh the COMP10X Bloc tronla gneti c Piold Vectol-.
. radiotel-hn. iyl-ta, 1956, 1, 51-58.
Abstract The Calculations ure 0,rried out by dircctl%,
Ivell's equations ytith the-ad d of
:-Iletic field vector. In t1le COMPlex electril:n-
Onclusion Lhe author indicate,
certain inELCcuracies U c U
'at Other investigators have overloo-
ked in the derivation Of a fOrMula for the attenuation of.
the HIC) .,,rave in rectangular 17averuides.
Card
29
39708
S/142/62/005/OC)2/01111/019
r,200/r.332
C)
AUTIH OR: J~oval ev, I.S.
TITLL: Theory of t1le asylilmatric air-fill od strip
tralls".1is.sion lille
PERIODICAL: Izvestiya vysshikh uchobarkh zavedeniy,
Radiotal-dinika, v- 5, no. 2, 1962, 243 - 249
T EKT TI-le theory of an asymmetric air-filled strip
transmission line is outlined. Tal~,in- the boundary fields
into consideration formulae are derived for the transimitted
power P , ~ L.
power loss per unit Of the line Q , and the
attenuation It is found by treatinS the strip line as an
ideal-condenser and usins conformal i-nappinZ; methods that:
C E2 2
p =, - . -2 . d (r B - rA
&r z
,..,h er e E is the homogeneous field in the cavity,
0
Card 1/4

S/142/62/005/002/011/019
Theory of .... E--OO/E;38--
z f
II/e i:; tiic wave im~oedancc o' free space,
.L
b --s tl-ic v.-idth of the strip,
d is the distance between the strip and. the
conductinU plane,
r and r are t-he roots of the transcendental equation:
A B
r 0 (10).
2d
It is further found "hat:
A
C R n e 1
E d. (r - r 1 n (17)
B A) r
Z- 0
I, r7- . 0B + 1
v;herc Rn 4-7/-S-Fy is tho stirface iaipodanca;
C,-,r.--i 2/ 4

S/142/62/005/002/011/019
Theory of .... E200/E382
r
in 0 + 1 1
R r]3
0 +
+
z d rB - r A
These formulae are represented by Fi.S. 1k (P/E2as a function
of b/d), Fig. 5 WE 2 as a function of b/d) and Fig. 6
(p as a function of b/d). A table of roots of --,q. (10) for
t.10 permissible range of b/d ratios is given. Experimental
verj.:~ication of the power-transmission formula has deizionstrated
ail agreement urithin 711~' of the theoretically comput-ed value.
There are 6 figures and 1 table.
Card 3/4
2 L
I=b 0
b 10 Ir 14 16
ar 0 6 6 -10 12 M
0 2 6 6 10
C',

KOVAIZV, I.S.
CalcUation of the capacitanee of the characteristic impedance
of a nonsymetrical strip line. Izv. vya. u--heb. zav.; radiotekh.
5 n-.3.368-.375 14,v-Jo 162. (MIRA 15:9)
1. Rekomendovans, kafedroy tecr.eticheskikh osnov
elektrotekhniki Ryazanekogo radiotekhnicheskogo instituta.
(Condensers (Electricity))

41hl,
s/142/62/005/oo4/oog/olo
)L~ 00 B192/E382
AUTHOR: Kovalev, I.S.
TITLE: Determination-of the capacitance and the characteristic
impedanco of a symmetrical strip line ujAh an air-
PERIODICAL: Izvestiya vysshil,,h uchebny1ch zavedenJ.y,
Radioteldinika, v. 5, no. 4, 1962, 527 - 530
TOM. An exact analytical determi*nation of the capacitance
of a strip line presents considerable difficulties since it
depends on the solution of 'elliptical integrals of the first
order. The capacitance of such a symmoirical line was therafore
determined experiment ally, the mcasurembntj3 being conducted at
a frequency of 60 Mc/s by means of a*Q-meter. 'It is found from
the experimental data that the capacitance can be approximately
described by the following fomaula:
C = 0.15 1 +
d
j OM
whereb is the width of the central strip of theAine and
Card 1/3

s/14-1/62/005/Oo4/009/010
Determination of the .... E192/E382
d is the spacing between the strip and the earthing plates.
The formula is valid for b/d ~ 0.6 . The impedance of the
strip can be expressed by:
ze, = 30/C (1)
if Z 0 is evaluated by Using Elq- (2) for expressing C , the
result is fairly accurate, except whon the thicknesg -A of the
centre strip is a significant fraction of d In the latter
case, the capacitance can be expressed by:
Card 2/3
Card 3/3
C- rA